The present disclosure provides a dual-lens movement control method, which includes steps as follows. The tracking target is detected through the wide-angle lens, and the final tracking range is calculated; the magnification and the position are determined according to the final tracking range; the separate mode or the alignment mode is determined according to the magnification and the position.
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2. The dual-lens movement control system of claim 1, wherein in the alignment mode, the processor moves the wide-angle lens and the telescope synchronously through the motor device, and outputs a displaying image of the wide-angle lens.
A dual-lens movement control system for optical devices, such as cameras or imaging systems, addresses the challenge of aligning multiple lenses to capture synchronized images. The system includes a wide-angle lens and a telescope lens, each mounted on a motorized platform. A processor controls the movement of both lenses through a motor device, ensuring precise alignment. In alignment mode, the processor synchronizes the movement of the wide-angle lens and the telescope lens, allowing them to track the same subject or field of view simultaneously. During this mode, the system outputs the image captured by the wide-angle lens, which provides a broader field of view for easier alignment and framing. This synchronization ensures that both lenses maintain consistent positioning, improving image accuracy and reducing misalignment errors. The system may also include additional features, such as calibration routines or user-adjustable settings, to enhance alignment precision. The synchronized movement and real-time display of the wide-angle lens image streamline the alignment process, making it more efficient and reliable for applications requiring multi-lens coordination.
3. The dual-lens movement control system of claim 2, wherein when the at least one tracking target changes, and when the processor determines that a displaying image of the telescope is sufficient to cover the final tracking range, the processor starts to zoom in the displaying image of the wide-angle lens, when a viewing angle of the wide-angle lens matches a viewing angle of the telescope, the processor switches to output the displaying image of the telescope and enters the separation mode.
A dual-lens movement control system for optical devices, such as telescopes and wide-angle lenses, addresses the challenge of seamlessly transitioning between different lenses while maintaining continuous tracking of a moving target. The system includes a processor that monitors at least one tracking target and adjusts the lenses accordingly. When the tracking target changes position, the processor evaluates whether the telescope's field of view is sufficient to cover the target's new location. If so, the processor initiates a zoom-in operation on the wide-angle lens's displayed image. As the wide-angle lens's viewing angle narrows to match the telescope's viewing angle, the system automatically switches the output to the telescope's image. This transition occurs in a separation mode, ensuring smooth and uninterrupted tracking. The system enhances tracking accuracy and user experience by dynamically adjusting lens configurations based on target movement and field-of-view requirements.
4. The dual-lens movement control system of claim 3, wherein in the separation mode, the processor controls the wide-angle lens and the telescope respectively through the motor device, so that the displaying image of the telescope is enlarged to cover the final tracking range, the displaying image of the wide-angle lens is zoomed out to a widest-angle end, and the wide-angle lens returns to a central orientation through the motor device.
This invention relates to a dual-lens movement control system for optical devices, addressing the challenge of efficiently tracking and capturing subjects within a wide field of view while simultaneously providing detailed zoomed-in observations. The system integrates a wide-angle lens and a telescope lens, each controlled by a motor device and a processor to dynamically adjust their positions and zoom levels based on operational modes. In a separation mode, the processor independently controls the wide-angle lens and the telescope. The telescope lens is adjusted to enlarge its displayed image, expanding its coverage to match a predefined tracking range. Concurrently, the wide-angle lens is zoomed out to its maximum field of view and reoriented to a central position using the motor device. This configuration ensures comprehensive coverage of the tracking area while maintaining the ability to zoom in on specific details. The motor device facilitates precise movement and alignment of both lenses, enabling seamless transitions between different viewing modes. The system optimizes tracking and observation by dynamically adjusting lens parameters, enhancing situational awareness and detail capture in surveillance, photography, or other applications requiring dual-lens coordination.
5. The dual-lens movement control system of claim 4, wherein when the at least one tracking target changes again, and when the processor determines that the displaying image of the telescope is incapable of covering the last tracking range, the processor zooms out the displaying image of the telescope, zooms in the displaying image of the wide-angle lens, moves the wide-angle lens through the motor device until the viewing angle of the wide-angle lens matches the viewing angle of the telescope, switches to output the displaying image of the wide-angle lens, and enters the alignment mode.
This invention relates to a dual-lens movement control system for optical devices, particularly for tracking moving targets. The system addresses the challenge of maintaining continuous tracking when a target moves outside the field of view of a high-magnification telescope lens. The system includes a telescope lens for high-magnification viewing and a wide-angle lens for broader coverage. A motor device adjusts the position of the wide-angle lens, while a processor controls the lenses and image output. When a tracked target moves beyond the telescope's field of view, the processor detects this and initiates a series of adjustments. The telescope image zooms out, and the wide-angle lens image zooms in. The motor device repositions the wide-angle lens to align its viewing angle with the telescope's previous angle. The system then switches to displaying the wide-angle lens image and enters an alignment mode, allowing the user to reacquire the target. This ensures seamless tracking transitions between lenses, maintaining target visibility even when the target moves unpredictably. The system improves tracking accuracy and reduces manual adjustments, enhancing usability in applications like surveillance, astronomy, or wildlife observation.
6. The dual-lens movement control system of claim 1, wherein the wide-angle lens and the telescope are arranged in a same rotation axis, and the motor device comprises a first independent motor, a second independent motor and a common motor, the first independent motor is connected to the wide-angle lens, the second independent motor is connected to the telescope, the common motor is connected to the wide-angle lens and the telescope, the first independent motor is a first independent horizontal rotation motor, the second independent motor is a second independent horizontal rotation motor, and the common motor is a common horizontal rotation motor.
This invention relates to a dual-lens movement control system designed for optical devices, such as cameras or telescopes, that require precise and independent control of a wide-angle lens and a telescope. The system addresses the challenge of coordinating the movement of two distinct lenses while allowing for both independent and synchronized adjustments. The wide-angle lens and the telescope are mounted on a shared rotation axis, enabling compact integration and efficient space utilization. The system includes three motors: a first independent motor dedicated to the wide-angle lens, a second independent motor dedicated to the telescope, and a common motor that drives both lenses simultaneously. The first and second independent motors are horizontal rotation motors, allowing each lens to pivot independently in the horizontal plane. The common motor, also a horizontal rotation motor, enables synchronized movement of both lenses when needed. This configuration ensures flexibility in lens positioning, whether for independent adjustments or coordinated operations, enhancing functionality in applications requiring dynamic lens control.
7. The dual-lens movement control system of claim 1, wherein the motor device includes an independent motor and a common motor, the independent motor is connected to the telescope, the common motor is connected to the wide-angle lens and the telescope, and the independent motor is an independent horizontal rotation motor, and the common motor is a common horizontal rotation motor.
This invention relates to a dual-lens movement control system for optical devices, such as cameras or telescopes, that addresses the challenge of independently and synchronously controlling multiple lenses. The system includes a motor device with two distinct motors: an independent motor and a common motor. The independent motor is specifically connected to a telescope lens, allowing for precise, isolated horizontal rotation of the telescope. The common motor is connected to both a wide-angle lens and the telescope, enabling synchronized horizontal movement of both lenses when needed. This dual-motor configuration allows for flexible operation, where the telescope can be adjusted independently for detailed viewing while the wide-angle lens remains fixed, or both lenses can be moved together for broader scene tracking. The system enhances functionality by providing independent control over the telescope while maintaining coordinated movement with the wide-angle lens when required, improving versatility in optical applications.
13. The dual-lens movement control method of claim 8, wherein the wide-angle lens and the telescope are arranged in a same rotation axis, and the motor device comprises a first independent motor, a second independent motor and a common motor, the first independent motor is connected to the wide-angle lens, the second independent motor is connected to the telescope, the common motor is connected to the wide-angle lens and the telescope, the first independent motor is a first independent horizontal rotation motor, the second independent motor is a second independent horizontal rotation motor, and the common motor is a common horizontal rotation motor.
This invention relates to a dual-lens movement control system for optical devices, addressing the challenge of independently and synchronously controlling multiple lenses in a compact arrangement. The system includes a wide-angle lens and a telescope mounted on a shared rotation axis, allowing for coordinated or independent movement. The motor assembly consists of three distinct motors: a first independent motor dedicated to the wide-angle lens, a second independent motor dedicated to the telescope, and a common motor linked to both lenses. The first and second independent motors are horizontal rotation motors, enabling precise independent adjustments of each lens. The common horizontal rotation motor facilitates synchronized movement of both lenses when required. This configuration ensures flexibility in lens positioning while maintaining structural efficiency, particularly in applications where space is limited, such as in surveillance systems, telescopic cameras, or astronomical instruments. The system allows for dynamic switching between independent and coordinated lens operations, enhancing functionality without increasing mechanical complexity.
14. The dual-lens movement control method of claim 8, wherein the motor device includes an independent motor and a common motor, the independent motor is connected to the telescope, the common motor is connected to the wide-angle lens and the telescope, and the independent motor is an independent horizontal rotation motor, and the common motor is a common horizontal rotation motor.
This invention relates to a dual-lens movement control method for optical systems, specifically addressing the challenge of independently and synchronously controlling multiple lenses in a compact device. The system includes a telescope and a wide-angle lens, each requiring precise movement for optimal imaging. The method employs a motor device with two distinct motors: an independent motor and a common motor. The independent motor is exclusively connected to the telescope, allowing for fine-tuned horizontal rotation adjustments without affecting the wide-angle lens. The common motor, meanwhile, is linked to both the telescope and the wide-angle lens, enabling synchronized horizontal rotation when both lenses need to move in unison. This dual-motor configuration ensures flexibility in lens control, accommodating scenarios where independent or coordinated adjustments are necessary. The independent motor's exclusive connection to the telescope allows for specialized movements, such as tracking or zooming, while the common motor facilitates simultaneous adjustments for both lenses, improving efficiency and reducing mechanical complexity. The system is particularly useful in applications requiring dynamic lens positioning, such as surveillance, photography, or astronomy, where precise and adaptable lens control is essential.
20. The non-transitory computer readable medium of claim 15, wherein the wide-angle lens and the telescope are arranged in a same rotation axis, and the motor device comprises a first independent motor, a second independent motor and a common motor, the first independent motor is connected to the wide-angle lens, the second independent motor is connected to the telescope, the common motor is connected to the wide-angle lens and the telescope, the first independent motor is a first independent horizontal rotation motor, the second independent motor is a second independent horizontal rotation motor, and the common motor is a common horizontal rotation motor.
This invention relates to an imaging system combining a wide-angle lens and a telescope for capturing images or video. The system addresses the challenge of integrating multiple optical devices with independent and coordinated movement to enhance versatility in surveillance, observation, or imaging applications. The wide-angle lens and telescope are mounted on a shared rotation axis, allowing synchronized or independent rotation. The system includes three motors: a first independent motor for rotating the wide-angle lens, a second independent motor for rotating the telescope, and a common motor for rotating both the wide-angle lens and the telescope simultaneously. The first and second independent motors are horizontal rotation motors, enabling precise horizontal adjustments of each optical device separately. The common motor, also a horizontal rotation motor, facilitates coordinated movement of both the wide-angle lens and the telescope. This configuration allows flexible operation, such as independent panning of the wide-angle lens for broad coverage while the telescope remains fixed, or synchronized panning of both devices for aligned tracking. The system enhances functionality by providing independent control over each optical device while maintaining the ability to move them in unison when needed.
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March 31, 2022
May 14, 2024
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